Layered multi-mold refrigerator

Abstract

A layered multi-mold refrigerator includes a water supply barrel; the water supply cylinder is inversely installed on the top of the driving box, a shell is fixedly installed on the front end face of the driving box, an installation groove is vertically formed in the middle section of the shell, an ice making box body is installed in the installation groove, three sets of die pipes are transversely arranged on the front end face of the ice making box body, and the pipe dies are in butt joint with a water supply pipeline of the water supply cylinder through butt joint ends. According to the ice-making refrigerator with the layered multi-mode structure, the multi-mode structure can be matched with ice-making molds of different types and shapes, so that the ice-making refrigerator is matched with ice blocks of different shapes to complete ice water splashing and other use environments, and the problem that a simulation experiment that various ice body conditions cannot be simulated due to the fact that ice water splashing adopts a single shape in the past is solved; meanwhile, the ice blocks can be directly taken out and obtained through the plug-in mounting type mold pipe structure, the mold pipe does not need to be taken out after the whole equipment is stopped, and the technical problem that the ice blocks can be taken out only after the ice making process of an existing ice making box needs to be completed within unified time is solved.

Description

Technical Field

[0001] The utility model belongs to the technical field of ice-making equipment, and in particular relates to a layered multi-mode refrigerator. Background Art

[0002] The background technology of refrigerator making mainly relates to the development of refrigeration technology and the origin and evolution of refrigerator making.

[0003] First, from the perspective of the development of refrigeration technology, as early as the beginning of the 19th century, scientists began to study the changes in the properties of gases during the process of pressurization and decompression, which provided a theoretical basis for the subsequent development of refrigeration technology. Subsequently, the emergence of compression refrigeration technology greatly promoted the development of refrigerators, making refrigerators enter the homes of ordinary people. Since then, refrigerator technology has been continuously innovated, and many new refrigeration methods and materials have emerged, such as absorption refrigeration, semiconductor refrigeration, etc., making refrigerators more efficient, smaller in size, and more convenient to use.

[0004] Secondly, from the origin and evolution of refrigerators, the invention and development of refrigerators has also gone through a long process. Early refrigerators mainly used natural ice or chemical refrigerants for refrigeration, which had limited refrigeration effects and were inconvenient to use. With the development of refrigeration technology, people began to study mechanical refrigeration methods such as electric-driven compressors, which greatly improved the refrigeration effect of refrigerators. Since then, the design of refrigerators has gradually developed in the direction of intelligence, personalization, and space saving, meeting people's increasingly diverse needs.

[0005] Therefore, the present application adopts an ice-making refrigerator with a layered multi-mode structure. The multi-mode structure can adapt to ice-making molds of different types and shapes, so as to adapt to ice cubes of different shapes to complete ice water splashing and other usage environments, solving the problem that the previous simulation experiment of ice water splashing uses a single shape and cannot simulate a variety of ice body conditions; at the same time, the plug-in mold tube structure can directly take out and obtain ice cubes without stopping the entire equipment to take out the mold tube, solving the technical problem that the previous refrigerators need to wait for a uniform time to complete the ice making process before taking out the ice cubes. Summary of the invention

[0006] In order to achieve the above object, the technical solution of the utility model is as follows:

[0007] A layered multi-mould refrigerator comprises a water supply cylinder; the water supply cylinder is invertedly mounted on the top of a drive box, a shell is fixedly mounted on the front end face of the drive box, a mounting groove is vertically opened in the middle section of the shell, a refrigerator body is mounted in the mounting groove, three groups of mould tubes are horizontally opened on the front end face of the refrigerator body, and the pipe moulds are butt-jointed with the water supply pipeline of the water supply cylinder through butt joints.

[0008] Furthermore, a plurality of groups of ice molds are evenly distributed on the mold tube body, the ice molds are embedded in the mold tube along the mold grooves of the tube body, and a temperature conducting shaft is installed at the center of the ice mold.

[0009] Furthermore, the inner wall of the ice mold is laterally installed with partition ribs along the temperature conduction axis, the partition ribs are in a left and right two-petal structure, the roots of the partition ribs are synchronously connected with transmission bars, and the transmission bars are synchronously installed on the axis through a sleeve layer.

[0010] Furthermore, the shaft extends into the central hole of the mold tube, and the inserted shaft end is synchronously connected to the mold tube.

[0011] Furthermore, a base is installed at the bottom of the housing;

[0012] The end surfaces on both sides of the shell are provided with heat-insulating layers, and heat-insulating strips are embedded in the heat-insulating layers.

[0013] The beneficial effects of the utility model are:

[0014] Compared with the prior art, an ice-making refrigerator with a layered multi-mode structure has a multi-mode structure that can adapt to ice-making molds of different types and shapes, thereby adapting to ice cubes of different shapes to complete ice water splashing and other usage environments, solving the problem that previous simulation experiments of ice water splashing use a single shape and cannot simulate various ice body conditions; at the same time, the plug-in mold tube structure can directly take out and obtain ice cubes without stopping the entire equipment to take out the mold tube, solving the technical problem that previous refrigerators need to wait for a uniform time to complete the ice-making process before taking out the ice cubes. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 The utility model is a structural schematic diagram of a layered multi-mode refrigerator.

[0016] Figure 2 The utility model is a structural schematic diagram of a layered multi-mode refrigerator ice mold.

[0017] Figure 3 The utility model is a structural schematic diagram of a layered multi-molded refrigerator drive shaft.

[0018] List of Figure Symbols:

[0019] 1 is a water supply cylinder, 2 is an ice making body, 3 is a rotating handle, 4 is an outer shell, 5 is a base, 6 is a mold tube, 7 is a heat preservation layer, 8 is a drive box, 9 is a mold groove, 10 is a temperature conduction shaft, 11 is a partition rib, 12 is a docking end, 13 is an ice mold, 14 is a transmission bar, 15 is an axis, and 16 is a sleeve. DETAILED DESCRIPTION

[0020] The present invention will be further described below in conjunction with the accompanying drawings and specific implementations. It should be understood that the following specific implementations are only used to illustrate the present invention and are not used to limit the scope of the present invention.

[0021] like Figure 1 , Figure 2 and Figure 3 As shown, a layered multi-mode refrigerator includes a water supply cylinder; the water supply cylinder 1 is invertedly installed on the top of the drive box 8, and the front end surface of the drive box 8 is fixedly installed with a shell 4, the middle section of the shell 4 is vertically opened with a mounting groove, and the refrigerator body 2 is installed in the mounting groove, and the front end surface of the refrigerator body 2 is horizontally opened with three groups of mold tubes 6, and the tube molds 6 are docked with the water supply pipeline of the water supply cylinder 1 through the docking end 12. The tube body of the mold tube 6 is evenly distributed with a plurality of groups of ice molds 13, and the ice molds 13 are embedded in the mold tube 6 along the mold groove of the tube body, and the center of the ice mold 13 is installed with a temperature conducting shaft 10. The shaft 15 extends into the center hole of the mold tube 6, and the end of the extended shaft 15 is synchronously connected with the mold tube 6. Among them, the water supply cylinder 1 is used as an ice making water supply structure, which is invertedly installed on the top of the drive box 8, and is docked with the mold tube 6 pipeline water supply through the water supply pipeline. In order to further fix the drive box 8, the shell 4 structure is added. The drive box 8 is equipped with a condenser, which cooperates with the shaft 15 to complete the cold ice making process. The shaft 15 extends into the mold tube 6, and the shaft 15 is connected to the heat conduction shaft 10, and the ice making process can be completed in cooperation with the ice mold during the connection process.

[0022] like Figure 1 , Figure 2 and Figure 3 As shown, the inner wall of the ice mold 13 is transversely installed with a partition rib 11 along the temperature conducting shaft 10, and the partition rib 11 is a left and right two-petal structure. The root of the partition rib 11 is synchronously connected with a transmission bar 14, and the transmission bar 14 is synchronously installed on the shaft 15 through a sleeve 16. Among them, the temperature conducting shaft 10 cooperates with ice making through the partition rib 11. During the ice making process, the partition rib 11 can divide the ice cubes into a middle section retaining groove. At the same time, during the process of taking out the ice cubes, the front end of the tube mold 6 can be pulled, and the left and right petals of the partition rib 11 can be further separated; thereby breaking the ice cubes and playing the role of uniformly collecting the ice cubes.

[0023] like Figure 1 , Figure 2 and Figure 3 As shown, a base 5 is installed at the bottom of the shell 4; the base 5 is a pressure-bearing device used to support the overall frame.

[0024] The end surfaces of both sides of the shell 4 are provided with a heat-insulating layer 7, and heat-insulating strips are embedded in the heat-insulating layer 7. The design of the heat-insulating strips and the heat-insulating layer 7 can improve the internal ice-making efficiency.

[0025] It should be noted that the above content only illustrates the technical idea of ​​the utility model and cannot be used to limit the protection scope of the utility model. For ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principle of the utility model. These improvements and modifications all fall within the protection scope of the claims of the utility model.

Claims

1. A layered multi-mode refrigerator, comprising a water supply cylinder; wherein: The water supply cylinder (1) is invertedly mounted on the top of the drive box (8); a housing (4) is fixedly mounted on the front end surface of the drive box (8); a mounting groove is vertically opened in the middle section of the housing (4); a refrigerator body (2) is mounted in the mounting groove; three groups of mold tubes (6) are horizontally opened on the front end surface of the refrigerator body (2); the mold tubes (6) are butt-jointed with the water supply pipeline of the water supply cylinder (1) via a butt joint end (12).

2. The layered multi-mode refrigerator according to claim 1, characterized in that: The mold tube (6) has a plurality of groups of ice molds (13) evenly distributed on the tube body. The ice molds (13) are embedded in the mold tube (6) along the mold grooves of the tube body. A temperature conducting shaft (10) is installed at the center of the ice mold (13).

3. The layered multi-mode refrigerator according to claim 2, characterized in that: The inner wall of the ice mold (13) is laterally mounted with a partition rib (11) along the temperature conducting shaft (10); the partition rib (11) is in a left and right two-petal structure; the root of the partition rib (11) is synchronously connected with a transmission bar (14); the transmission bar (14) is synchronously mounted on the shaft (15) via a sleeve layer (16).

4. The layered multi-mode refrigerator according to claim 3, characterized in that: The shaft (15) extends into the central hole of the mold tube (6), and the end of the extended shaft (15) is synchronously connected to the mold tube (6).

5. The layered multi-mode refrigerator according to claim 1, characterized in that: A base (5) is installed at the bottom of the outer shell (4); and a heat-insulating layer (7) is installed on both side end surfaces of the outer shell (4), and a heat-insulating strip is embedded in the heat-insulating layer (7).

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